A charging device including a battery; a first induction coil coupled to the battery; and an induction core extending through the first induction coil. The induction core has a portion which extends in an outward direction from the charging device and is adapted to removably couple with a second induction coil of a portable electronic device by extending into the second induction coil.
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1. A charging device comprising:
a battery;
a first induction coil coupled to the battery; and
an induction core extending through the first induction coil, wherein the induction core has a portion which extends in an outward direction trout the charging device and is adapted to removably couple with a second induction coil of a portable electronic device by extending into the second induction coil.
17. A portable electronic device comprising:
a housing having a housing support loop extending outward from the housing, the support loop being adapted to support the housing by suspension on another member;
a rechargeable battery located in the housing; and
a signal indicator extending along an elongated length of the support loop, wherein the signal indicator is adapted to visually signal at least one characteristic of the portable electronic device.
25. A battery charger comprising:
a plug adapted to be connected to an electrical outlet; and
an induction loop section having a hole adapted to receive an induction core of a device to be charged, the induction loop section having an induction coil coupled to the plug, wherein a center path of the induction coil is located at the hole of the induction loop section, and wherein the induction loop section is adapted to be removably placed on the induction core and surround a portion of the induction core to allow the induction coil to induce current in the induction core.
33. A charging system for a portable electronic device comprising:
a charging device comprising:
a rechargeable battery;
a first induction coil coupled to the battery; and
an induction core extending through the first induction coil, wherein the induction core is adapted to removably couple with a second induction coil of a portable electronic device by extending into the second induction coil; and
a first battery charger comprising a plug adapted to be connected to an electrical outlet and an induction loop section having a hole adapted to receive the induction core in the hole.
12. A method of charging a portable electronic device comprising steps of:
charging a first rechargeable battery in a first charging device, the charging device comprising a first induction coil coupled to the battery and an induction core extending through the first induction coil; and
coupling a second induction coil of the portable electronic device to the induction core such that the induction core is located in the second induction coil.
wherein the first battery of the charging device can charge a second rechargeable battery in the portable electronic device by induction through the single induction core.
27. A battery charger comprising:
an induction coil;
an induction core extending through a center channel of the induction coil, the induction core comprising a portion extending out of the center channel a predetermined distance;
a power feed section connected to the induction coil for supplying the induction coil with AC voltage; and
a housing surrounding the induction coil and the induction core, the housing comprising a first section adapted to be fixedly stationarily attached to a substantially vertical mounting surface and a second section extending outward from the first section, wherein the portion of the induction core extends at least partially along the second section of the housing, wherein the second section extends outward from the first section as a general cantilever.
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10. A charging system for a portable electronic device comprising:
a charging device as in
a first battery charger comprising a plug adapted to be connected to an electrical outlet and an induction loop section having a hole adapted to receive the induction core in the hole, wherein the induction loop section is located on the portion of the induction core.
11. A charging system as in
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This is a continuation-in-part patent application of U.S. patent application Ser. No. 09/894,883 filed on Jun. 29, 2001 which is hereby incorporated by reference in its entirety.
1. Field of the Invention
The present invention relates to a charging system and, more particularly, to a charging system for a portable electronic device.
2. Brief Description of Prior Developments
The use of battery operated portable electronic devices has been increasing, such as mobile telephones, PDAs, MP3 players, etc. Problems associated with the discharge of batteries in portable electronic devices has, thus, been increasing. Likewise, the need to recharge batteries of portable electronic devices while away from the home or office has increased. Battery charging trays which use induction for charging batteries in portable electronic devices are known in the art, such as devices offered for sale by Splashpower Ltd. and MobileWise Inc. However, these types of battery charging trays must be directly connected to an electrical outlet or main, and have a relatively large footprint. A tray can be difficult to carry, and not all portable electronic devices have the necessary circuitry or chips to use these types of induction trays. Another problem is a simple organization issue, such as neatly organizing a family of different products, in a compact manner, with a charging device.
With the prior art charging system shown in
There is a desire to allow induction charging of a battery in a portable electronic device without increasing the weight and size of the portable electronic device by having to include an induction core in the device. There is also a desire to increase charging efficiency in induction charging equipment by allowing larger deviations in relative positioning between coils in a charger and the portable electronic device. There is also a desire to reduce the risk of generating heat in items accidentally located near the charger. There is also a desire to provide a charger which is adapted to accommodate different geometries, shapes or sizes of portable electronic devices. There is a desire to provide a portable charging device which can be used without a real time connection with an electrical outlet or main. There is also a desire to provide an improved charging system which is readily adaptable to different charging configurations. There is also a desire to provide a portable electronic device having an induction charging loop which can be used for at least one other function, such as a structural support loop for supporting the electronic device in a hanging configuration, or such as being housed in conjunction with a signal indicator adapted to visually signal at least one characteristic of the portable electronic device.
In accordance with one aspect of the present invention, a charging device is provided including a battery; a first induction coil coupled to the battery; and an induction core extending through the first induction coil. The induction core has a portion which extends in an outward direction from the charging device and is adapted to removably couple with a second induction coil of a portable electronic device by extending into the second induction coil.
In accordance with one method of the present invention, a method of charging a portable electronic device is provided comprising steps of charging a first rechargeable battery in a first charging device, the charging device comprising a first induction coil coupled to the battery and an induction core extending through the first induction coil; and coupling a second induction coil of the portable electronic device to the induction core such that the induction core is located in the second induction coil. The first battery of the charging device can charge a second rechargeable battery in the portable electronic device by induction through the single induction core.
In accordance with another aspect of the present invention, a portable electronic device is provided comprising a housing having a housing support loop extending outward from the housing; a rechargeable battery located in the housing; an induction coil connected to the battery; and a signal indicator. The induction coil extends through the support loop with a hole of the support loop being located in a center path of the induction coil. The signal indicator extends along an elongated length of the support loop. The signal indicator is adapted to visually signal at least one characteristic of the portable electronic device.
In accordance with another aspect of the present invention, a battery charger is provided comprising a plug adapted to be connected to an electrical outlet; and an induction loop section having a hole adapted to receive an induction core of a device to be charged. The induction loop section has an induction coil coupled to the plug. A center path of the induction coil is located at the hole of the induction loop section. The induction loop section is adapted to be removably placed on the induction core and surround a portion of the induction core to allow the induction coil to induce current in the induction core.
In accordance with another aspect of the present invention, a battery charger is provided comprising an induction coil; an induction core extending through a center channel of the induction coil, the induction core comprising a portion extending out of the center channel a predetermined distance; a power feed section connected to the induction coil for supplying the induction coil with AC voltage; and a housing surrounding the induction coil and the induction core. The housing comprises a first section adapted to be stationarily attached to a mounting surface and a second section extending from the first section in a general cantilevered fashion. The portion of the induction core extends at least partially along the second section of the housing.
In accordance with another aspect of the present invention, a charging system for a portable electronic device is provided comprising a charging device and a first battery charger. The charging device comprises a rechargeable battery; a first induction coil coupled to the battery; and an induction core extending through the first induction coil. The induction core is adapted to removably couple with a second induction coil of a portable electronic device by extending into the second induction coil. The first battery charger comprises a plug adapted to be connected to an electrical outlet and an induction loop section having a hole adapted to receive the induction core in the hole.
The foregoing aspects and other features of the present invention are explained in the following description, taken in connection with the accompanying drawings, wherein:
Referring to
The charging system 10 is shown connected to a wall 12 erected perpendicular to a floor 14 (the ground). In an alternate embodiment, the charging system 10 could be connected to any suitable component or surface. The charging system 10 generally comprises a charging device 16 and at least one portable electronic device 18. In the embodiment shown, the charging system 10 is shown with two of the portable electronic devices 18 connected to the charging device 16. In alternate embodiment, more or less than the two portable electronic devices could be connected to the charging device. The charging device could be configured to receive only one portable electronic device at a time, or more than two portable electronic devices at the same time. In the embodiment shown, the first portable electronic device comprises a mobile telephone 20 and the second portable electronic device comprises a PDA 22. However, in alternate embodiments, the portable electronic devices could comprise any suitable type of portable electronic device including, for example, a laptop computer, a hand-held game device, or a digital camera.
Referring also to
The charging device 16 also comprises an induction core 30. In the embodiment shown, the induction core 30 has a general elongated shape. The induction core 30 comprises a first section 32 and a second section 34. The induction core 30 is comprised of ferromagnetic material, such as metal. The first section 32 of the induction core 30 is located in the center path of the primary side coil 26. The second section 34 extends out of the housing 24 in a general cantilevered fashion. The second section 34 could be covered with a suitable insulator.
The charging hook section 17 generally comprises the second section 34. The charging hook section 17 is adapted to support the portable electronic devices 18 thereon. In an alternate embodiment, the charging hook section 17 could comprise any suitable size or shape. As shown in
Each of the portable electronic devices 18 comprise a battery 38 and a secondary side coil 40. The battery 38 comprises a rechargeable battery. The rechargeable battery 38 could be removably connected to the rest of the portable electronic device. Alternatively, the rechargeable battery 38 might not be removable. The secondary side coil 40 is located in the support loop 36. More specifically, each support loop 36 comprises a hole 42. The secondary side coil 40 comprises a center channel 44 which is located at the hole 42. Thus, when the second section 34 of the induction core 30 extends through the hole 42, the second section 34 also extends through the center channel 44 through the secondary side coil 40. Thus, the induction core 30 penetrates through the secondary side coil 40 as shown in
As seen with reference to
The embodiment described above has many various different advantages. The portable electronic devices 18 can be made smaller in size and lighter in weight than conventional induction recharged portable devices. This is because the portable electronic devices do not need a separate induction core for their secondary side coils 40. The charging system comprises a single induction core 30 which is used for both the charging device 16 and one or more of the portable electronic devices 18. The portable electronic device 18 is removably coupled with the single induction core 30. Thus, when the portable electronic device 18 is removed from the induction core 30, the portable electronic device is smaller and more light weight because the induction core 30 is not attached.
The single induction core 30 extends from the primary side coil 26 over to the secondary side coil 40. This provides a stable charging efficiency which can be attained by hanging the portable electronic device on the charging hook section 34. The portable electronic devices can be relatively easily slid onto and slid off of the cantilevered charging hook section 17. The location of the induction core 30 inside the center channel 44 of the secondary side loop 40 can be relatively precise. Thus, charging efficiency can be relatively stable. Precise positioning of the portable electronic device relative to the charger, such as in the conventional embodiment shown in
Because the charging device 16 does not comprise a cradle or receiving area, such as the cradle receiving area 4 in the conventional charger shown in
The charging device 16 is adapted to be coupled with a plurality of different types of portable electronic devices. As seen with reference to
As seen with reference to
With the present invention, conventional systems which employee electrical contacts in a charging connection portion need not be provided which requires the electrical contacts to contact the portable electronic device. Therefore, the portable electronic device can be waterproof. Additionally, or alternatively, problems of such as corrosion of the charging connection portion can be avoided.
The foregoing embodiment has been described with regard to charging with a charging arch provided on the side of the portable electronic device which is suspended by a hook shaped induction core extending from the main section of the charging device. In an alternate embodiment, charging may be performed in such a way that a charger body is installed (or buried) with an induction core extending upward, such as from a floor or desktop. In another alternate embodiment, the main section 15 of the charging device 16 could be mounted inside the wall 12, or inside a desk or automobile body.
In the embodiment described above, the system has been described as including the primary side coil, the power feed portion and the induction core as the constituent elements of the charging device. In an alternate embodiment, the charging device could comprise additional components. With the present invention, a charging system can be provided which is capable of accommodating various different types of portable electronic devices, including portable electronic devices having different sizes and shapes, and attaining a stable charging efficiency, regardless of the overall different sizes or shapes of the portable electronic devices, so long as the portable electronic devices are adapted to receive the second section 34 of the induction core of the charging device.
With the present invention, a charging system can be provided which comprises a charging device which includes an induction core penetrating through a primary side coil, and a portable equipment which includes an insertion portion containing a secondary side coil and allowing the induction core to pass therethrough. A charging device for a charging system can be provided which includes an induction core penetrating through a primary side coil, and a portable equipment which includes an insertion portion containing a secondary side coil and allowing the induction core to pass therethrough; the charging device comprising the primary side coil, and a power feed portion. A portable equipment can be provided comprising an insertion portion through which an induction core of the charging device penetrates through a primary side coil thereof and is allowed to pass, and in which a secondary side coil for performing charging is contained. A charging system can be provided which comprises a charging device which includes a hook shaped induction core penetrating through a primary side coil, and a portable a equipment which includes a charging arch containing a secondary side coil and allowed to be suspensibly attached to the induction core. A charging device can be provided for a charging system having the charging device which includes a hook shaped induction core penetrating through a primary side coil, and a portable equipment which includes a charging arch containing a secondary side coil and allowed to be suspendably attached to the induction core, comprising a power feed portion, the secondary side coil, and the hook shaped induction core. A portable equipment can be provided comprising a charging arch which is allowed to be suspendably attached to a hook shaped induction core of a charging device as it penetrates through a primary side coil thereof and which is provided at an end part of a body of the portable equipment, and a secondary side coil which serves to perform charging and which is contained in an annular space defined by the charging arch and a part under the arch.
Referring now to
Similar to the embodiment shown in
Referring also to
The induction core 78 comprises a first section 88 (see
If the movable joint between the first and second sections is located inside or at a wall of the housing 68, the housing 68 will preferably comprises a sealing structure, such as a rubber boot, to provide a seal for the second section 90, but still allow the second section 90 to be movable between its first and second positions. If the movable joint is located outside of the housing 68, a sealing structure is preferably provided for the end of the first section 88 at the exit from the housing 68. In an alternative embodiment, the first and second sections 88, 90 might not be movable relative to each other. With this type of alternate embodiment, the induction coil 76 could be adapted to move inside the housing 68 with the first section 88 when the second section 90 is moved between its first and second positions.
The second section 90 of the induction core 78 forms a clamp or clasp for the charging device 52. As seen with reference to
In a preferred embodiment, the charging device 52 comprises a detent system 98 which is adapted to retain the second section 90 at either its open position or its closed position until positively moved by a user. In an alternate embodiment, the charging device could comprise a latch 100 adapted to engage the end 94 of the second section 90.
As noted above, the first section 88 of the induction core 78 extends through the induction coil 76. The induction coil 76 is connected to the switch 72. The switch 72 is coupled to the terminals of the battery 70 and to the DC/AC converter 74. The circuit shown in
The charging device 52 is adapted to charge the rechargeable battery 58 by power from the battery 70. The charging device 52 functions as a mother product which is adapted to charge batteries in satellite products, such as the portable electronic device 54, by use of an inductive loop. The satellite products can be totally insulated, having no galvanic parts, such as electrical contacts for recharging their rechargeable batteries. The battery 70 in the charging device 52 is much larger than the battery 58 in the portable electronic device. Thus, the charging device 52 can provide the portable electronic device 54 with a plurality of charges and/or can provide a plurality of portable electronic devices with charges before the battery 70 in the charging device 52 needs to be recharged or replaced.
In the embodiment shown in
The induction loop section 108 is substantially the same as the support loop 60 of the portable electronic device 54. In particular, the support loop 60 comprises a closed loop strap. The induction loop section 108 is flexible to allow for compact storage of the second charging device 102. In an alternate embodiment, the induction loop section 108 could be rigid, such as the support loops 36 shown in
Similar to the embodiments shown in
During recharging of the charging device 52, the charging device 52 can be charged by its inductive core 78. The clamp formed by the second section 90 is clamped to the charger loop 108 which becomes the primary coil of the charger system. The coil 76 of the charger unit 52 acts as the secondary coil during this recharging mode. However, the coil 76 of the charger unit acts as the primary coil during recharging of the portable electronic devices by the charging unit 52. Thus, the single coil 76 can function in two different modes based upon whether the charging device 52 is being charged or whether the charging device 52 is charging another component.
The induction coil 64 is connected to the rechargeable battery 58 in the portable electronic device. Thus, the battery can be recharged by current induced at the induction coil 64. In addition to functioning as part of the battery recharging system for the portable electronic device 54, the support loop 60 is also adapted to support the housing 56, such as by suspension, on another item, such as a user's wrist or on the charging device 52. The portable electronic device could also comprise a separate electrical connector 66 for directly mechanically and electrically connecting the portable electronic device to a battery charger having contacts. In a preferred embodiment, the induction loop section 108 of the second charging device 102 and the support loop 60 of at least one portable electronic device 54 can both be attached at the clasp 90 to the charging device 52 for charging both batteries 70, 58 at the same time.
Referring now to
In this embodiment, the induction coil 126 is located in the first section 130. The induction core 128 extends through the induction coil 126 in the first section 130 and extends out of the induction coil a predetermined distance. The induction core 128 extends into the second section 132. The electrical connector 124 forms a power feed section which is connected to the induction coil 126 for supplying the induction coil with AC voltage. The electrical connector 124 is adapted to be connected to the contacts 84, 86 of the conventional charger 82. In an alternate embodiment, the charging device 120 could be attached to electrical wires inside the wall 12. As seen in
Referring now to
The second section 152 extends outward from the first section 150. In this embodiment, the induction coil 146 is located in the wall 12. In an alternate embodiment, the induction coil 126 could be located in the first section 150, or the second section 152, or the third section 154 of the housing. The induction core 148 extends through the induction coil and extends out of the induction coil a predetermined distance. In the embodiment shown, the induction core 148 extends through the third section 154 and into the second section 152.
In this embodiment, the induction core 148 has a general T shape. A top of the T shape extends along the second section 152. The center shaft of the T shape extends along the third section 154 and into the induction coil 146. As shown in
Referring now to
In a preferred embodiment, the signal indicator 166 has a general elongated length 168 and a relatively small width 170. The signal indicator 166 extends along an elongated length of the support loop 164. The signal indicator 166 is located on one exterior side 172 of the support loop 164. In an alternate embodiment, a second signal indicator could be located on the opposite exterior side 174 of the support loop. In another alternate embodiment, the signal indicator could extend along both sides 172, 174.
A first end 176 of the signal indicator is located at the base of the support loop. An opposite second end 178 of the signal indicator is located at the outer end of the support loop. The signal indicator 166 is adapted to illuminate or change color from red at the first end 176 to green at the second end 178. More specifically, the signal indicator 166 is coupled to the battery 180 of the portable electronic device 160. The portable electronic device comprises a switch or button 182. When the button 182 is depressed as indicated by arrow 184, current is sent from the battery 180 to the signal indicator 166.
The signal indicator 166 is adapted to signal the strength of the battery charge; indicated by how far up the signal indicator the elimination occurs from the first end 176 to the second end 178. Similar types of battery charge indicators are provided on the sides of small size batteries and battery packaging; such as AA batteries. In an alternate embodiment, any suitable type of battery strength or level indicator could be provided. In an alternate embodiment, in addition to or as an alternative to the button 182, the portable electronic device could be adapted to activate the signal indicator 166 based upon another predetermined event. For example, the portable electronic device could be programmed to activate the signal indicator 166 while the battery 180 in the mobile telephone 160 is being charged.
In the embodiment in which the support loop 164 comprises an induction coil, the portable electronic device could be programmed or configured to automatically activate the signal indicator 166 when current is flowing through the induction coil 64. The signal indicator could change color during charging. Thus, the signal indicator could be adapted to indicate an operational state of charging of the battery in addition to, or as an alternative to, the charge level of the battery. The portable electronic device 160 could be configured to actuate the signal indicator automatically based upon a predetermined event, such as, for example, charging of the battery 180 by induction at the induction coil 64. Rather than indicating the at least one characteristic of the portable electronic device by color, the signal indicator could be adapted to indicate the characteristic by a shading change or level of illumination change of the signal indicator. The present invention can comprise locating a signal indicator on the flexible strap 164 which is adapted to signal at least one characteristic of the handset.
The present invention makes it possible to charge satellite products on the road. The invention makes it possible to design a product that is completely isolated, such as from water and dust, and is thus protected. The mother-unit-charger can be operated even under water. When compared to a tray charger, the charger system of the present invention can have one unit less if the power cable or adapter is connected to the mother unit instead of a tray. Also, the present invention does away with a tray which it can be difficult, or at least awkward or bulky, to carry. Even in the embodiment in which the mother unit is charged contactlessly with a loop charger, such as shown in
It should be understood that the foregoing description is only illustrative of the invention. Various alternatives and modifications can be devised by those skilled in the art without departing from the invention. Accordingly, the present invention is intended to embrace all such alternatives, modifications and variances which fall within the scope of the appended claims.
Yamamoto, Tetsuya, Naskali, Matti
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